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Akin Akturk
Also published under:A. Akturk, Akin Aktruk
Affiliation
CoolCAD Electronics LLC, College Park, MD, USA
Topic
Switching Loss,Conduction Loss,Control Variables,Equivalent Circuit,Input Voltage,Loading Conditions,Phase Shift,Switching Frequency,Zero-voltage Switching,Active Bridge,Optimal Control,Rms Current,Transformer Winding,Bus Voltage,Circuit Design,Cryogenic Temperatures,Duty Cycle,Gain Condition,Gallium Nitride,Inductor Current,Light Load Conditions,Load Range,Modulation Technique,Multi-objective Optimization,Operating Frequency,Output Ports,Power Devices,Power Loss,Power Transfer,Quantum Computing,Resonant Converter,Secondary Side,Silicon Carbide,Soft Switching,Air-core,Control Parameters,Core Loss,Current Switching,Dcdc Converter,Degrees Of Freedom,Design Optimization,Device Model,Device Operation,Dual Active Bridge,Dual Active Bridge Converter,Electric Vehicles,Energy Management System,Equivalent Impedance,Gain Range,Hard Switching,
Biography
Akin Akturk ([email protected]) earned his Ph.D. and M.S. degrees in 2006 and 2001, respectively, from the University of Maryland, College Park. He is an accomplished expert in electrical engineering specializing in silicon carbide and silicon electrical and thermal design, modeling, fabrication, and testing. Currently, he leads the design and fabrication effort of silicon carbide devices at CoolCAD, College Park, MD 20740 USA. He is an expert in testing and modeling of electronics for extreme environment applications. His work involves interdisciplinary research and development in power electronics, optical sensor fabrication, and nanotechnology. He is currently focused on the testing, modeling, and fabrication of extreme electronics and the use of these in various applications: high temperature and power operation of silicon carbide devices, as well as low temperature and under radiation transport physics in silicon and silicon carbide. He has done extensive work on compact and physics-based modeling of wide bandgap power devices and predicting self-consistent electrothermal performances of these devices in power circuits. His research interests also include space and terrestrial radiation testing and modeling.